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Military drones are evolving quickly, but the factories building them do not always move at the same speed. Traditional aircraft manufacturing can depend on specialized tooling, long supply chains and large numbers of individual components. When operational requirements change, modifying an airframe and bringing the new version into production can therefore take considerable time.
A new autonomous UAV project from AEVEX and Divergent Technologies is exploring a different manufacturing model. The companies plan to combine operational drone technology with AI-assisted design, industrial 3D printing and robotic assembly, with the aim of moving more quickly from a digital concept to a producible aircraft.
According to NextGenDefense, at the center of the project is the Divergent Adaptive Production System (DAPS), a digital manufacturing platform intended to automate much of the process between engineering and final assembly.
It begins with AI-powered design software that develops structural components around both performance requirements and the realities of manufacturing. Instead of designing an aircraft first and then determining how a factory will build it, the system considers the production process while creating the structure.
Once a design is completed digitally, it sends the components to industrial additive-manufacturing systems. These machines print structural nodes from alloys selected according to the requirements of each part.
The printed components are then moved into a software-controlled robotic assembly system, which joins them into larger structures. Importantly, the process does not require dedicated tooling for every individual design.
That could make modifications considerably easier. If engineers need to change the airframe for a different payload or mission requirement, they can alter the digital design and send the revised components through the same manufacturing architecture rather than creating an entirely new production line.
The companies will explore adaptable airframes while looking for ways to reduce part counts and support higher-volume manufacturing. Fewer individual components can simplify assembly and potentially reduce the number of suppliers and interfaces involved in production.
For defense organizations, that flexibility has become increasingly relevant. Recent conflicts have demonstrated that unmanned systems may need to be produced in large numbers while also being modified rapidly in response to electronic warfare, new payloads and changing battlefield tactics. A manufacturing system that can switch designs without extensive retooling could shorten the gap between identifying a requirement and delivering updated aircraft.
The project is still a collaboration to develop a future UAV rather than an announcement of an operational aircraft, and no performance specifications have yet been disclosed.
Its significance therefore lies primarily in how the drone will be made. Instead of treating aircraft production as a fixed factory built around one design, it aims to make the factory itself adaptable, using software, 3D printers and robots to change what comes off the line as quickly as the digital design changes.
